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llvm-mirror/test/TableGen/GlobalISelEmitter.td

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// RUN: llvm-tblgen -gen-global-isel -I %p/../../include %s | FileCheck %s
include "llvm/Target/Target.td"
//===- Define the necessary boilerplate for our test target. --------------===//
def MyTargetISA : InstrInfo;
def MyTarget : Target { let InstructionSet = MyTargetISA; }
let TargetPrefix = "mytarget" in {
def int_mytarget_nop : Intrinsic<[llvm_i32_ty], [llvm_i32_ty], [IntrNoMem]>;
}
[globalisel] Decouple src pattern operands from dst pattern operands. Summary: This isn't testable for AArch64 by itself so this patch also adds support for constant immediates in the pattern and physical register uses in the result. The new IntOperandMatcher matches the constant in patterns such as '(set $rd:GPR32, (G_XOR $rs:GPR32, -1))'. It's always safe to fold immediates into an instruction so this is the first rule that will match across multiple BB's. The Renderer hierarchy is responsible for adding operands to the result instruction. Renderers can copy operands (CopyRenderer) or add physical registers (in particular %wzr and %xzr) to the result instruction in any order (OperandMatchers now import the operand names from SelectionDAG to allow renderers to access any operand). This allows us to emit the result instruction for: %1 = G_XOR %0, -1 --> %1 = ORNWrr %wzr, %0 %1 = G_XOR -1, %0 --> %1 = ORNWrr %wzr, %0 although the latter is untested since the matcher/importer has not been taught about commutativity yet. Added BuildMIAction which can build new instructions and mutate them where possible. W.r.t the mutation aspect, MatchActions are now told the name of an instruction they can recycle and BuildMIAction will emit mutation code when the renderers are appropriate. They are appropriate when all operands are rendered using CopyRenderer and the indices are the same as the matcher. This currently assumes that all operands have at least one matcher. Finally, this change also fixes a crash in AArch64InstructionSelector::select() caused by an immediate operand passing isImm() rather than isCImm(). This was uncovered by the other changes and was detected by existing tests. Depends on D29711 Reviewers: t.p.northover, ab, qcolombet, rovka, aditya_nandakumar, javed.absar Reviewed By: rovka Subscribers: aemerson, dberris, kristof.beyls, llvm-commits Differential Revision: https://reviews.llvm.org/D29712 llvm-svn: 296131
2017-02-24 16:43:30 +01:00
def R0 : Register<"r0"> { let Namespace = "MyTarget"; }
def GPR32 : RegisterClass<"MyTarget", [i32], 32, (add R0)>;
def GPR32Op : RegisterOperand<GPR32>;
def F0 : Register<"f0"> { let Namespace = "MyTarget"; }
def FPR32 : RegisterClass<"MyTarget", [f32], 32, (add F0)>;
class I<dag OOps, dag IOps, list<dag> Pat>
: Instruction {
let Namespace = "MyTarget";
let OutOperandList = OOps;
let InOperandList = IOps;
let Pattern = Pat;
}
def complex : Operand<i32>, ComplexPattern<i32, 2, "SelectComplexPattern", []> {
let MIOperandInfo = (ops i32imm, i32imm);
}
def gi_complex :
[globalisel][tablegen] Revise API for ComplexPattern operands to improve flexibility. Summary: Some targets need to be able to do more complex rendering than just adding an operand or two to an instruction. For example, it may need to insert an instruction to extract a subreg first, or it may need to perform an operation on the operand. In SelectionDAG, targets would create SDNode's to achieve the desired effect during the complex pattern predicate. This worked because SelectionDAG had a form of garbage collection that would take care of SDNode's that were created but not used due to a later predicate rejecting a match. This doesn't translate well to GlobalISel and the churn was wasteful. The API changes in this patch enable GlobalISel to accomplish the same thing without the waste. The API is now: InstructionSelector::OptionalComplexRendererFn selectArithImmed(MachineOperand &Root) const; where Root is the root of the match. The return value can be omitted to indicate that the predicate failed to match, or a function with the signature ComplexRendererFn can be returned. For example: return OptionalComplexRendererFn( [=](MachineInstrBuilder &MIB) { MIB.addImm(Immed).addImm(ShVal); }); adds two immediate operands to the rendered instruction. Immed and ShVal are captured from the predicate function. As an added bonus, this also reduces the amount of information we need to provide to GIComplexOperandMatcher. Depends on D31418 Reviewers: aditya_nandakumar, t.p.northover, qcolombet, rovka, ab, javed.absar Reviewed By: ab Subscribers: dberris, kristof.beyls, igorb, llvm-commits Differential Revision: https://reviews.llvm.org/D31761 llvm-svn: 301079
2017-04-22 17:11:04 +02:00
GIComplexOperandMatcher<s32, "selectComplexPattern">,
GIComplexPatternEquiv<complex>;
def m1 : OperandWithDefaultOps <i32, (ops (i32 -1))>;
def Z : OperandWithDefaultOps <i32, (ops R0)>;
def m1Z : OperandWithDefaultOps <i32, (ops (i32 -1), R0)>;
def HasA : Predicate<"Subtarget->hasA()">;
def HasB : Predicate<"Subtarget->hasB()">;
def HasC : Predicate<"Subtarget->hasC()"> { let RecomputePerFunction = 1; }
//===- Test the function boilerplate. -------------------------------------===//
// CHECK: const unsigned MAX_SUBTARGET_PREDICATES = 3;
// CHECK: using PredicateBitset = llvm::PredicateBitsetImpl<MAX_SUBTARGET_PREDICATES>;
// CHECK-LABEL: #ifdef GET_GLOBALISEL_TEMPORARIES_DECL
// CHECK-NEXT: mutable MatcherState State;
// CHECK-NEXT: typedef ComplexRendererFn(MyTargetInstructionSelector::*ComplexMatcherMemFn)(MachineOperand &) const;
// CHECK-NEXT: const MatcherInfoTy<PredicateBitset, ComplexMatcherMemFn> MatcherInfo;
// CHECK-NEXT: #endif // ifdef GET_GLOBALISEL_TEMPORARIES_DECL
// CHECK-LABEL: #ifdef GET_GLOBALISEL_TEMPORARIES_INIT
// CHECK-NEXT: , State(2),
// CHECK-NEXT: MatcherInfo({TypeObjects, FeatureBitsets, I64ImmPredicateFns, APIntImmPredicateFns, APFloatImmPredicateFns, {
// CHECK-NEXT: nullptr, // GICP_Invalid
// CHECK-NEXT: &MyTargetInstructionSelector::selectComplexPattern, // gi_complex
// CHECK-NEXT: }})
// CHECK-NEXT: #endif // ifdef GET_GLOBALISEL_TEMPORARIES_INIT
// CHECK-LABEL: enum SubtargetFeatureBits : uint8_t {
// CHECK-NEXT: Feature_HasABit = 0,
// CHECK-NEXT: Feature_HasBBit = 1,
// CHECK-NEXT: Feature_HasCBit = 2,
// CHECK-NEXT: };
// CHECK-LABEL: PredicateBitset MyTargetInstructionSelector::
// CHECK-NEXT: computeAvailableModuleFeatures(const MyTargetSubtarget *Subtarget) const {
// CHECK-NEXT: PredicateBitset Features;
// CHECK-NEXT: if (Subtarget->hasA())
// CHECK-NEXT: Features[Feature_HasABit] = 1;
// CHECK-NEXT: if (Subtarget->hasB())
// CHECK-NEXT: Features[Feature_HasBBit] = 1;
// CHECK-NEXT: return Features;
// CHECK-NEXT: }
// CHECK-LABEL: PredicateBitset MyTargetInstructionSelector::
// CHECK-NEXT: computeAvailableFunctionFeatures(const MyTargetSubtarget *Subtarget, const MachineFunction *MF) const {
// CHECK-NEXT: PredicateBitset Features;
// CHECK-NEXT: if (Subtarget->hasC())
// CHECK-NEXT: Features[Feature_HasCBit] = 1;
// CHECK-NEXT: return Features;
// CHECK-NEXT: }
// CHECK-LABEL: // LLT Objects.
// CHECK-NEXT: enum {
// CHECK-NEXT: GILLT_s32,
// CHECK-NEXT: }
// CHECK-NEXT: const static LLT TypeObjects[] = {
// CHECK-NEXT: LLT::scalar(32),
// CHECK-NEXT: };
// CHECK-LABEL: // Feature bitsets.
// CHECK-NEXT: enum {
// CHECK-NEXT: GIFBS_Invalid,
// CHECK-NEXT: GIFBS_HasA,
// CHECK-NEXT: GIFBS_HasA_HasB_HasC,
// CHECK-NEXT: }
// CHECK-NEXT: const static PredicateBitset FeatureBitsets[] {
// CHECK-NEXT: {}, // GIFBS_Invalid
// CHECK-NEXT: {Feature_HasABit, },
// CHECK-NEXT: {Feature_HasABit, Feature_HasBBit, Feature_HasCBit, },
// CHECK-NEXT: };
// CHECK-LABEL: // ComplexPattern predicates.
// CHECK-NEXT: enum {
// CHECK-NEXT: GICP_Invalid,
// CHECK-NEXT: GICP_gi_complex,
// CHECK-NEXT: };
// CHECK-LABEL: // PatFrag predicates.
// CHECK-NEXT: enum {
// CHECK-NEXT: GIPFP_I64_Predicate_simm8 = GIPFP_I64_Invalid + 1,
// CHECK-NEXT: };
// CHECK-NEXT: static bool Predicate_simm8(int64_t Imm) { return isInt<8>(Imm); }
// CHECK-NEXT: static InstructionSelector::I64ImmediatePredicateFn I64ImmPredicateFns[] = {
// CHECK-NEXT: nullptr,
// CHECK-NEXT: Predicate_simm8,
// CHECK-NEXT: };
// CHECK-LABEL: // PatFrag predicates.
// CHECK-NEXT: enum {
// CHECK-NEXT: GIPFP_APFloat_Predicate_fpimmz = GIPFP_APFloat_Invalid + 1,
// CHECK-NEXT: };
// CHECK-NEXT: static bool Predicate_fpimmz(const APFloat & Imm) { return Imm->isExactlyValue(0.0); }
// CHECK-NEXT: static InstructionSelector::APFloatImmediatePredicateFn APFloatImmPredicateFns[] = {
// CHECK-NEXT: nullptr,
// CHECK-NEXT: Predicate_fpimmz,
// CHECK-NEXT: };
// CHECK-LABEL: // PatFrag predicates.
// CHECK-NEXT: enum {
// CHECK-NEXT: GIPFP_APInt_Predicate_simm9 = GIPFP_APInt_Invalid + 1,
// CHECK-NEXT: };
// CHECK-NEXT: static bool Predicate_simm9(const APInt & Imm) { return isInt<9>(Imm->getSExtValue()); }
// CHECK-NEXT: static InstructionSelector::APIntImmediatePredicateFn APIntImmPredicateFns[] = {
// CHECK-NEXT: nullptr,
// CHECK-NEXT: Predicate_simm9,
// CHECK-NEXT: };
// CHECK: bool MyTargetInstructionSelector::selectImpl(MachineInstr &I) const {
// CHECK-NEXT: MachineFunction &MF = *I.getParent()->getParent();
// CHECK-NEXT: MachineRegisterInfo &MRI = MF.getRegInfo();
// CHECK: AvailableFunctionFeatures = computeAvailableFunctionFeatures(&STI, &MF);
// CHECK-NEXT: const PredicateBitset AvailableFeatures = getAvailableFeatures();
// CHECK-NEXT: NewMIVector OutMIs;
// CHECK-NEXT: State.MIs.clear();
// CHECK-NEXT: State.MIs.push_back(&I);
//===- Test a pattern with multiple ComplexPatterns in multiple instrs ----===//
//
// CHECK-LABEL: MatchTable0[] = {
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 0*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/4,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_SELECT,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/0, /*Op*/2, /*Renderer*/0, GICP_gi_complex,
// CHECK-NEXT: // MIs[0] src3
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/3, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/0, /*Op*/3, /*Renderer*/1, GICP_gi_complex,
// CHECK-NEXT: // (select:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src2, complex:{ *:[i32] }:$src3) => (INSN2:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src3, complex:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::INSN2,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/1,
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/0,
// CHECK-NEXT: GIR_MergeMemOperands, /*InsnID*/0, /*MergeInsnID's*/0, GIU_MergeMemOperands_EndOfList,
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 0: @[[LABEL]]
def INSN3 : I<(outs GPR32:$dst),
(ins GPR32Op:$src1, complex:$src2, GPR32:$src3, complex:$src4, complex:$src5), []>;
def : Pat<(select GPR32:$src1, complex:$src2, (select GPR32:$src3, complex:$src4, complex:$src5)),
(INSN3 GPR32:$src1, complex:$src2, GPR32:$src3, complex:$src4, complex:$src5)>;
//===- Test a pattern with multiple ComplexPattern operands. --------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 1*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/4,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/3, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/4,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_SELECT,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/0, /*Op*/2, /*Renderer*/0, GICP_gi_complex,
// CHECK-NEXT: // MIs[0] Operand 3
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/3, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_SELECT,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src3
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[1] src4
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/1, /*Op*/2, /*Renderer*/1, GICP_gi_complex,
// CHECK-NEXT: // MIs[1] src5
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/3, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/1, /*Op*/3, /*Renderer*/2, GICP_gi_complex,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (select:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src2, (select:{ *:[i32] } GPR32:{ *:[i32] }:$src3, complex:{ *:[i32] }:$src4, complex:{ *:[i32] }:$src5)) => (INSN3:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src2, GPR32:{ *:[i32] }:$src3, complex:{ *:[i32] }:$src4, complex:{ *:[i32] }:$src5)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::INSN3,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/0,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/1, // src3
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/1,
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/2,
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 1: @[[LABEL]]
def : GINodeEquiv<G_SELECT, select>;
let mayLoad = 1 in {
def INSN2 : I<(outs GPR32:$dst), (ins GPR32Op:$src1, complex:$src2, complex:$src3), []>;
}
def : Pat<(select GPR32:$src1, complex:$src2, complex:$src3),
(INSN2 GPR32:$src1, complex:$src3, complex:$src2)>;
//===- Test a simple pattern with regclass operands. ----------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 2*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_ADD,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // (add:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2) => (ADD:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_MutateOpcode, /*InsnID*/0, /*RecycleInsnID*/0, /*Opcode*/MyTarget::ADD,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 2: @[[LABEL]]
def ADD : I<(outs GPR32:$dst), (ins GPR32:$src1, GPR32:$src2),
[(set GPR32:$dst, (add GPR32:$src1, GPR32:$src2))]>;
//===- Test a pattern with a tied operand in the matcher ------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 3*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_ADD,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src{{$}}
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src{{$}}
// CHECK-NEXT: GIM_CheckIsSameOperand, /*MI*/0, /*OpIdx*/2, /*OtherMI*/0, /*OtherOpIdx*/1,
// CHECK-NEXT: // (add:{ *:[i32] } GPR32:{ *:[i32] }:$src, GPR32:{ *:[i32] }:$src) => (DOUBLE:{ *:[i32] } GPR32:{ *:[i32] }:$src)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::DOUBLE,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 3: @[[LABEL]]
def DOUBLE : I<(outs GPR32:$dst), (ins GPR32:$src), [(set GPR32:$dst, (add GPR32:$src, GPR32:$src))]>;
//===- Test a simple pattern with ValueType operands. ----------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 4*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_ADD,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: // (add:{ *:[i32] } i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2) => (ADD:{ *:[i32] } i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_MutateOpcode, /*InsnID*/0, /*RecycleInsnID*/0, /*Opcode*/MyTarget::ADD,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 4: @[[LABEL]]
def : Pat<(add i32:$src1, i32:$src2),
(ADD i32:$src1, i32:$src2)>;
//===- Test a simple pattern with an intrinsic. ---------------------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 5*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_INTRINSIC,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckIntrinsicID, /*MI*/0, /*Op*/1, Intrinsic::mytarget_nop,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // (intrinsic_wo_chain:{ *:[i32] } [[ID:[0-9]+]]:{ *:[iPTR] }, GPR32:{ *:[i32] }:$src1) => (MOV:{ *:[i32] } GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOV,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/2, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 5: @[[LABEL]]
def MOV : I<(outs GPR32:$dst), (ins GPR32:$src1),
[(set GPR32:$dst, (int_mytarget_nop GPR32:$src1))]>;
//===- Test a nested instruction match. -----------------------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 6*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckFeatures, GIFBS_HasA,
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/1, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_MUL,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_ADD,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[1] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src3
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (mul:{ *:[i32] } (add:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2), GPR32:{ *:[i32] }:$src3) => (MULADD:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2, GPR32:{ *:[i32] }:$src3)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MULADD,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/2, // src2
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/2, // src3
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 6: @[[LABEL]]
// We also get a second rule by commutativity.
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 7*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckFeatures, GIFBS_HasA,
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/2,
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_MUL,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src3
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_ADD,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[1] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (mul:{ *:[i32] } GPR32:{ *:[i32] }:$src3, (add:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2)) => (MULADD:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2, GPR32:{ *:[i32] }:$src3)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MULADD,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/2, // src2
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src3
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 7: @[[LABEL]]
def MULADD : I<(outs GPR32:$dst), (ins GPR32:$src1, GPR32:$src2, GPR32:$src3),
[(set GPR32:$dst,
(mul (add GPR32:$src1, GPR32:$src2), GPR32:$src3))]>,
Requires<[HasA]>;
//===- Test another simple pattern with regclass operands. ----------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 8*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckFeatures, GIFBS_HasA_HasB_HasC,
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_MUL,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // (mul:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2) => (MUL:{ *:[i32] } GPR32:{ *:[i32] }:$src2, GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MUL,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/2, // src2
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 8: @[[LABEL]]
[globalisel] Decouple src pattern operands from dst pattern operands. Summary: This isn't testable for AArch64 by itself so this patch also adds support for constant immediates in the pattern and physical register uses in the result. The new IntOperandMatcher matches the constant in patterns such as '(set $rd:GPR32, (G_XOR $rs:GPR32, -1))'. It's always safe to fold immediates into an instruction so this is the first rule that will match across multiple BB's. The Renderer hierarchy is responsible for adding operands to the result instruction. Renderers can copy operands (CopyRenderer) or add physical registers (in particular %wzr and %xzr) to the result instruction in any order (OperandMatchers now import the operand names from SelectionDAG to allow renderers to access any operand). This allows us to emit the result instruction for: %1 = G_XOR %0, -1 --> %1 = ORNWrr %wzr, %0 %1 = G_XOR -1, %0 --> %1 = ORNWrr %wzr, %0 although the latter is untested since the matcher/importer has not been taught about commutativity yet. Added BuildMIAction which can build new instructions and mutate them where possible. W.r.t the mutation aspect, MatchActions are now told the name of an instruction they can recycle and BuildMIAction will emit mutation code when the renderers are appropriate. They are appropriate when all operands are rendered using CopyRenderer and the indices are the same as the matcher. This currently assumes that all operands have at least one matcher. Finally, this change also fixes a crash in AArch64InstructionSelector::select() caused by an immediate operand passing isImm() rather than isCImm(). This was uncovered by the other changes and was detected by existing tests. Depends on D29711 Reviewers: t.p.northover, ab, qcolombet, rovka, aditya_nandakumar, javed.absar Reviewed By: rovka Subscribers: aemerson, dberris, kristof.beyls, llvm-commits Differential Revision: https://reviews.llvm.org/D29712 llvm-svn: 296131
2017-02-24 16:43:30 +01:00
def MUL : I<(outs GPR32:$dst), (ins GPR32:$src2, GPR32:$src1),
[(set GPR32:$dst, (mul GPR32:$src1, GPR32:$src2))]>,
Requires<[HasA, HasB, HasC]>;
[globalisel] Decouple src pattern operands from dst pattern operands. Summary: This isn't testable for AArch64 by itself so this patch also adds support for constant immediates in the pattern and physical register uses in the result. The new IntOperandMatcher matches the constant in patterns such as '(set $rd:GPR32, (G_XOR $rs:GPR32, -1))'. It's always safe to fold immediates into an instruction so this is the first rule that will match across multiple BB's. The Renderer hierarchy is responsible for adding operands to the result instruction. Renderers can copy operands (CopyRenderer) or add physical registers (in particular %wzr and %xzr) to the result instruction in any order (OperandMatchers now import the operand names from SelectionDAG to allow renderers to access any operand). This allows us to emit the result instruction for: %1 = G_XOR %0, -1 --> %1 = ORNWrr %wzr, %0 %1 = G_XOR -1, %0 --> %1 = ORNWrr %wzr, %0 although the latter is untested since the matcher/importer has not been taught about commutativity yet. Added BuildMIAction which can build new instructions and mutate them where possible. W.r.t the mutation aspect, MatchActions are now told the name of an instruction they can recycle and BuildMIAction will emit mutation code when the renderers are appropriate. They are appropriate when all operands are rendered using CopyRenderer and the indices are the same as the matcher. This currently assumes that all operands have at least one matcher. Finally, this change also fixes a crash in AArch64InstructionSelector::select() caused by an immediate operand passing isImm() rather than isCImm(). This was uncovered by the other changes and was detected by existing tests. Depends on D29711 Reviewers: t.p.northover, ab, qcolombet, rovka, aditya_nandakumar, javed.absar Reviewed By: rovka Subscribers: aemerson, dberris, kristof.beyls, llvm-commits Differential Revision: https://reviews.llvm.org/D29712 llvm-svn: 296131
2017-02-24 16:43:30 +01:00
//===- Test a more complex multi-instruction match. -----------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 9*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckFeatures, GIFBS_HasA,
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/1, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/2, /*MI*/0, /*OpIdx*/2, // MIs[2]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/2, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[1] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/2, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[2] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/2, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[2] src3
// CHECK-NEXT: GIM_CheckType, /*MI*/2, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/2, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[2] src4
// CHECK-NEXT: GIM_CheckType, /*MI*/2, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/2, /*Op*/2, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/2,
// CHECK-NEXT: // (sub:{ *:[i32] } (sub:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2), (sub:{ *:[i32] } GPR32:{ *:[i32] }:$src3, GPR32:{ *:[i32] }:$src4)) => (INSNBOB:{ *:[i32] } GPR32:{ *:[i32] }:$src1, GPR32:{ *:[i32] }:$src2, GPR32:{ *:[i32] }:$src3, GPR32:{ *:[i32] }:$src4)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::INSNBOB,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/1, /*OpIdx*/2, // src2
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/2, /*OpIdx*/1, // src3
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/2, /*OpIdx*/2, // src4
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 9: @[[LABEL]]
def INSNBOB : I<(outs GPR32:$dst), (ins GPR32:$src1, GPR32:$src2, GPR32:$src3, GPR32:$src4),
[(set GPR32:$dst,
(sub (sub GPR32:$src1, GPR32:$src2), (sub GPR32:$src3, GPR32:$src4)))]>,
Requires<[HasA]>;
//===- Test a pattern with ComplexPattern operands. -----------------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 10*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckComplexPattern, /*MI*/0, /*Op*/2, /*Renderer*/0, GICP_gi_complex,
// CHECK-NEXT: // (sub:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src2) => (INSN1:{ *:[i32] } GPR32:{ *:[i32] }:$src1, complex:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::INSN1,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_ComplexRenderer, /*InsnID*/0, /*RendererID*/0,
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 10: @[[LABEL]]
def INSN1 : I<(outs GPR32:$dst), (ins GPR32:$src1, complex:$src2), []>;
def : Pat<(sub GPR32:$src1, complex:$src2), (INSN1 GPR32:$src1, complex:$src2)>;
//===- Test a simple pattern with a default operand. ----------------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 11*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_XOR,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckConstantInt, /*MI*/0, /*Op*/2, -2
// CHECK-NEXT: // (xor:{ *:[i32] } GPR32:{ *:[i32] }:$src1, -2:{ *:[i32] }) => (XORI:{ *:[i32] } GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::XORI,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_AddImm, /*InsnID*/0, /*Imm*/-1,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 11: @[[LABEL]]
// The -2 is just to distinguish it from the 'not' case below.
def XORI : I<(outs GPR32:$dst), (ins m1:$src2, GPR32:$src1),
[(set GPR32:$dst, (xor GPR32:$src1, -2))]>;
//===- Test a simple pattern with a default register operand. -------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 12*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_XOR,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckConstantInt, /*MI*/0, /*Op*/2, -3
// CHECK-NEXT: // (xor:{ *:[i32] } GPR32:{ *:[i32] }:$src1, -3:{ *:[i32] }) => (XOR:{ *:[i32] } GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::XOR,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_AddRegister, /*InsnID*/0, MyTarget::R0,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 12: @[[LABEL]]
// The -3 is just to distinguish it from the 'not' case below and the other default op case above.
def XOR : I<(outs GPR32:$dst), (ins Z:$src2, GPR32:$src1),
[(set GPR32:$dst, (xor GPR32:$src1, -3))]>;
//===- Test a simple pattern with a multiple default operands. ------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 13*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_XOR,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckConstantInt, /*MI*/0, /*Op*/2, -4
// CHECK-NEXT: // (xor:{ *:[i32] } GPR32:{ *:[i32] }:$src1, -4:{ *:[i32] }) => (XORlike:{ *:[i32] } GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::XORlike,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_AddImm, /*InsnID*/0, /*Imm*/-1,
// CHECK-NEXT: GIR_AddRegister, /*InsnID*/0, MyTarget::R0,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 13: @[[LABEL]]
// The -4 is just to distinguish it from the other 'not' cases.
def XORlike : I<(outs GPR32:$dst), (ins m1Z:$src2, GPR32:$src1),
[(set GPR32:$dst, (xor GPR32:$src1, -4))]>;
//===- Test a simple pattern with multiple operands with defaults. --------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 14*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_XOR,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckConstantInt, /*MI*/0, /*Op*/2, -5,
// CHECK-NEXT: // (xor:{ *:[i32] } GPR32:{ *:[i32] }:$src1, -5:{ *:[i32] }) => (XORManyDefaults:{ *:[i32] } GPR32:{ *:[i32] }:$src1)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::XORManyDefaults,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_AddImm, /*InsnID*/0, /*Imm*/-1,
// CHECK-NEXT: GIR_AddRegister, /*InsnID*/0, MyTarget::R0,
// CHECK-NEXT: GIR_AddRegister, /*InsnID*/0, MyTarget::R0,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // src1
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 14: @[[LABEL]]
// The -5 is just to distinguish it from the other cases.
def XORManyDefaults : I<(outs GPR32:$dst), (ins m1Z:$src3, Z:$src2, GPR32:$src1),
[(set GPR32:$dst, (xor GPR32:$src1, -5))]>;
[globalisel] Decouple src pattern operands from dst pattern operands. Summary: This isn't testable for AArch64 by itself so this patch also adds support for constant immediates in the pattern and physical register uses in the result. The new IntOperandMatcher matches the constant in patterns such as '(set $rd:GPR32, (G_XOR $rs:GPR32, -1))'. It's always safe to fold immediates into an instruction so this is the first rule that will match across multiple BB's. The Renderer hierarchy is responsible for adding operands to the result instruction. Renderers can copy operands (CopyRenderer) or add physical registers (in particular %wzr and %xzr) to the result instruction in any order (OperandMatchers now import the operand names from SelectionDAG to allow renderers to access any operand). This allows us to emit the result instruction for: %1 = G_XOR %0, -1 --> %1 = ORNWrr %wzr, %0 %1 = G_XOR -1, %0 --> %1 = ORNWrr %wzr, %0 although the latter is untested since the matcher/importer has not been taught about commutativity yet. Added BuildMIAction which can build new instructions and mutate them where possible. W.r.t the mutation aspect, MatchActions are now told the name of an instruction they can recycle and BuildMIAction will emit mutation code when the renderers are appropriate. They are appropriate when all operands are rendered using CopyRenderer and the indices are the same as the matcher. This currently assumes that all operands have at least one matcher. Finally, this change also fixes a crash in AArch64InstructionSelector::select() caused by an immediate operand passing isImm() rather than isCImm(). This was uncovered by the other changes and was detected by existing tests. Depends on D29711 Reviewers: t.p.northover, ab, qcolombet, rovka, aditya_nandakumar, javed.absar Reviewed By: rovka Subscribers: aemerson, dberris, kristof.beyls, llvm-commits Differential Revision: https://reviews.llvm.org/D29712 llvm-svn: 296131
2017-02-24 16:43:30 +01:00
//===- Test a simple pattern with constant immediate operands. ------------===//
//
// This must precede the 3-register variants because constant immediates have
// priority over register banks.
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 15*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_XOR,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Wm
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckConstantInt, /*MI*/0, /*Op*/2, -1,
// CHECK-NEXT: // (xor:{ *:[i32] } GPR32:{ *:[i32] }:$Wm, -1:{ *:[i32] }) => (ORN:{ *:[i32] } R0:{ *:[i32] }, GPR32:{ *:[i32] }:$Wm)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::ORN,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_AddRegister, /*InsnID*/0, MyTarget::R0,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/1, // Wm
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 15: @[[LABEL]]
[globalisel] Decouple src pattern operands from dst pattern operands. Summary: This isn't testable for AArch64 by itself so this patch also adds support for constant immediates in the pattern and physical register uses in the result. The new IntOperandMatcher matches the constant in patterns such as '(set $rd:GPR32, (G_XOR $rs:GPR32, -1))'. It's always safe to fold immediates into an instruction so this is the first rule that will match across multiple BB's. The Renderer hierarchy is responsible for adding operands to the result instruction. Renderers can copy operands (CopyRenderer) or add physical registers (in particular %wzr and %xzr) to the result instruction in any order (OperandMatchers now import the operand names from SelectionDAG to allow renderers to access any operand). This allows us to emit the result instruction for: %1 = G_XOR %0, -1 --> %1 = ORNWrr %wzr, %0 %1 = G_XOR -1, %0 --> %1 = ORNWrr %wzr, %0 although the latter is untested since the matcher/importer has not been taught about commutativity yet. Added BuildMIAction which can build new instructions and mutate them where possible. W.r.t the mutation aspect, MatchActions are now told the name of an instruction they can recycle and BuildMIAction will emit mutation code when the renderers are appropriate. They are appropriate when all operands are rendered using CopyRenderer and the indices are the same as the matcher. This currently assumes that all operands have at least one matcher. Finally, this change also fixes a crash in AArch64InstructionSelector::select() caused by an immediate operand passing isImm() rather than isCImm(). This was uncovered by the other changes and was detected by existing tests. Depends on D29711 Reviewers: t.p.northover, ab, qcolombet, rovka, aditya_nandakumar, javed.absar Reviewed By: rovka Subscribers: aemerson, dberris, kristof.beyls, llvm-commits Differential Revision: https://reviews.llvm.org/D29712 llvm-svn: 296131
2017-02-24 16:43:30 +01:00
def ORN : I<(outs GPR32:$dst), (ins GPR32:$src1, GPR32:$src2), []>;
def : Pat<(not GPR32:$Wm), (ORN R0, GPR32:$Wm)>;
//===- Test a COPY_TO_REGCLASS --------------------------------------------===//
//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 16*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_BITCAST,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/MyTarget::FPR32RegClassID,
// CHECK-NEXT: // (bitconvert:{ *:[i32] } FPR32:{ *:[f32] }:$src1) => (COPY_TO_REGCLASS:{ *:[i32] } FPR32:{ *:[f32] }:$src1, GPR32:{ *:[i32] })
// CHECK-NEXT: GIR_MutateOpcode, /*InsnID*/0, /*RecycleInsnID*/0, /*Opcode*/TargetOpcode::COPY,
// CHECK-NEXT: GIR_ConstrainOperandRC, /*InsnID*/0, /*Op*/0, /*RC GPR32*/1,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 16: @[[LABEL]]
def : Pat<(i32 (bitconvert FPR32:$src1)),
(COPY_TO_REGCLASS FPR32:$src1, GPR32)>;
//===- Test a simple pattern with just a specific leaf immediate. ---------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 17*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_CONSTANT,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckLiteralInt, /*MI*/0, /*Op*/1, 1,
// CHECK-NEXT: // 1:{ *:[i32] } => (MOV1:{ *:[i32] })
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOV1,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 17: @[[LABEL]]
def MOV1 : I<(outs GPR32:$dst), (ins), [(set GPR32:$dst, 1)]>;
//===- Test a simple pattern with a leaf immediate and a predicate. -------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 18*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_CONSTANT,
// CHECK-NEXT: GIM_CheckI64ImmPredicate, /*MI*/0, /*Predicate*/GIPFP_I64_Predicate_simm8,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: // No operand predicates
// CHECK-NEXT: // (imm:{ *:[i32] })<<P:Predicate_simm8>>:$imm => (MOVimm8:{ *:[i32] } (imm:{ *:[i32] }):$imm)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOVimm8,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_CopyConstantAsSImm, /*NewInsnID*/0, /*OldInsnID*/0, // imm
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 18: @[[LABEL]]
def simm8 : ImmLeaf<i32, [{ return isInt<8>(Imm); }]>;
def MOVimm8 : I<(outs GPR32:$dst), (ins i32imm:$imm), [(set GPR32:$dst, simm8:$imm)]>;
//===- Same again but use an IntImmLeaf. ----------------------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 19*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_CONSTANT,
// CHECK-NEXT: GIM_CheckAPIntImmPredicate, /*MI*/0, /*Predicate*/GIPFP_APInt_Predicate_simm9,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: // No operand predicates
// CHECK-NEXT: // (imm:{ *:[i32] })<<P:Predicate_simm9>>:$imm => (MOVimm9:{ *:[i32] } (imm:{ *:[i32] }):$imm)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOVimm9,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_CopyConstantAsSImm, /*NewInsnID*/0, /*OldInsnID*/0, // imm
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 19: @[[LABEL]]
def simm9 : IntImmLeaf<i32, [{ return isInt<9>(Imm->getSExtValue()); }]>;
def MOVimm9 : I<(outs GPR32:$dst), (ins i32imm:$imm), [(set GPR32:$dst, simm9:$imm)]>;
//===- Test a simple pattern with just a leaf immediate. ------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 20*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_CONSTANT,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::GPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: // No operand predicates
// CHECK-NEXT: // (imm:{ *:[i32] }):$imm => (MOVimm:{ *:[i32] } (imm:{ *:[i32] }):$imm)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOVimm,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_CopyConstantAsSImm, /*NewInsnID*/0, /*OldInsnID*/0, // imm
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 20: @[[LABEL]]
def MOVimm : I<(outs GPR32:$dst), (ins i32imm:$imm), [(set GPR32:$dst, imm:$imm)]>;
//===- Test a simple pattern with a FP immediate and a predicate. ---------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 21*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/2,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_FCONSTANT,
// CHECK-NEXT: GIM_CheckAPFloatImmPredicate, /*MI*/0, /*Predicate*/GIPFP_APFloat_Predicate_fpimmz,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/MyTarget::FPR32RegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: // No operand predicates
// CHECK-NEXT: // (fpimm:{ *:[f32] })<<P:Predicate_fpimmz>>:$imm => (MOVfpimmz:{ *:[f32] } (fpimm:{ *:[f32] }):$imm)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MOVfpimmz,
// CHECK-NEXT: GIR_Copy, /*NewInsnID*/0, /*OldInsnID*/0, /*OpIdx*/0, // dst
// CHECK-NEXT: GIR_CopyFConstantAsFPImm, /*NewInsnID*/0, /*OldInsnID*/0, // imm
// CHECK-NEXT: GIR_EraseFromParent, /*InsnID*/0,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 21: @[[LABEL]]
def fpimmz : FPImmLeaf<f32, [{ return Imm->isExactlyValue(0.0); }]>;
def MOVfpimmz : I<(outs FPR32:$dst), (ins f32imm:$imm), [(set FPR32:$dst, fpimmz:$imm)]>;
//===- Test a pattern with an MBB operand. --------------------------------===//
// CHECK-NEXT: GIM_Try, /*On fail goto*//*Label 22*/ [[LABEL:[0-9]+]],
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/1,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_BR,
// CHECK-NEXT: // MIs[0] target
// CHECK-NEXT: GIM_CheckIsMBB, /*MI*/0, /*Op*/0,
// CHECK-NEXT: // (br (bb:{ *:[Other] }):$target) => (BR (bb:{ *:[Other] }):$target)
// CHECK-NEXT: GIR_MutateOpcode, /*InsnID*/0, /*RecycleInsnID*/0, /*Opcode*/MyTarget::BR,
// CHECK-NEXT: GIR_ConstrainSelectedInstOperands, /*InsnID*/0,
// CHECK-NEXT: GIR_Done,
// CHECK-NEXT: // Label 22: @[[LABEL]]
def BR : I<(outs), (ins unknown:$target),
[(br bb:$target)]>;
// CHECK-NEXT: GIM_Reject,
// CHECK-NEXT: };
// CHECK-NEXT: if (executeMatchTable(*this, OutMIs, State, MatcherInfo, MatchTable0, TII, MRI, TRI, RBI, AvailableFeatures)) {
// CHECK-NEXT: return true;
// CHECK-NEXT: }